脊柱生物力学离轴加载夹具:压缩和弯曲组合。

IF 1.7 4区 医学 Q4 BIOPHYSICS Journal of Biomechanical Engineering-Transactions of the Asme Pub Date : 2023-10-01 DOI:10.1115/1.4062780
Axel C Moore, Dione A Holder, Dawn M Elliott
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引用次数: 0

摘要

脊柱是一个多组织肌肉骨骼系统,在生理活动中支持大的多轴负荷和运动。脊柱的健康和病理生物力学功能及其亚问题通常使用尸体标本进行研究,尸体标本通常需要多轴生物力学测试系统来模拟脊柱的复杂加载环境。不幸的是,现成的设备很容易超过200000 美元,而定制设备需要大量的时间和机电一体化经验。我们的目标是开发一种成本合理的压缩和弯曲(屈伸和侧弯)脊柱测试系统,该系统只需要很少的时间和最少的技术知识。我们的解决方案是一种离轴加载夹具(OLaF),它安装在现有的单轴测试框架上,不需要额外的致动器。OLaF几乎不需要加工,大多数组件都是现成购买的,成本不到10000 美元。唯一需要的外部传感器是一个六轴称重传感器。此外,OLaF使用现有的单轴测试框架软件进行控制,而载荷数据则使用六轴称重传感器附带的软件进行收集。在这里,我们提供了OLaF如何发展主要运动和载荷并最小化离轴次要约束的设计原理,使用运动捕捉验证主要运动学,并证明该系统能够应用生理相关的、非损伤的轴向压缩和弯曲。虽然OLaF仅限于压缩和弯曲研究,但它能产生可重复的生理相关生物力学,具有高质量的数据和最低的启动成本。
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Off-Axis Loading Fixture for Spine Biomechanics: Combined Compression and Bending.

The spine is a multi-tissue musculoskeletal system that supports large multi-axial loads and motions during physiological activities. The healthy and pathological biomechanical function of the spine and its subtissues are generally studied using cadaveric specimens that often require multi-axis biomechanical test systems to mimic the complex loading environment of the spine. Unfortunately, an off-the-shelf device can easily exceed 200,000 USD, while a custom device requires extensive time and experience in mechatronics. Our goal was to develop a cost-appropriate compression and bending (flexion-extension and lateral bending) spine testing system that requires little time and minimal technical knowledge. Our solution was an off-axis loading fixture (OLaF) that mounts to an existing uni-axial test frame and requires no additional actuators. OLaF requires little machining, with most components purchased off-the-shelf, and costs less than 10,000 USD. The only external transducer required is a six-axis load cell. Furthermore, OLaF is controlled using the existing uni-axial test frame's software, while the load data is collected using the software included with the six-axis load cell. Here we provide the design rationale for how OLaF develops primary motions and loads and minimizes off-axis secondary constraints, verify the primary kinematics using motion capture, and demonstrate that the system is capable of applying physiologically relevant, noninjurious, axial compression and bending. While OLaF is limited to compression and bending studies it produces repeatable physiologically relevant biomechanics, with high quality data, and minimal startup costs.

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来源期刊
CiteScore
3.40
自引率
5.90%
发文量
169
审稿时长
4-8 weeks
期刊介绍: Artificial Organs and Prostheses; Bioinstrumentation and Measurements; Bioheat Transfer; Biomaterials; Biomechanics; Bioprocess Engineering; Cellular Mechanics; Design and Control of Biological Systems; Physiological Systems.
期刊最新文献
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